DRIVING INNOVATION.
POWERING DEFENCE.
HARDWARE AND SOFTWARE, ENGINEERED IN THE SAME ROOM.
ENGINEERED TO SEE.BUILT TO RESPOND.
An advanced sensing and motion-control platform developed around precision engineering, modular architecture and integrated systems.
CONTROL ATEVERY LAYER.
Mechanical design, sensing, interfaces and motion systems come together as one integrated engineering platform.
PRECISION YOUCAN INSPECT.
From the external enclosure to its interface architecture, every detail is designed around system integration and controlled operation.
BUILT IN CANADA.
ENGINEERED FOR COMPLEX MISSIONS.
ENGINEERING AT THE INTERSECTION OF SENSING, MOTION AND INTELLIGENCE.
ONE ARCHITECTURE. MANY CONFIGURATIONS.
Four capability areas. One engineering foundation.
CLEARER AWARENESS FOR AN EVOLVING AERIAL THREAT.
A CLEARER OPERATIONAL PICTURE FOR AN EVOLVING AERIAL THREAT.
Sensing layers activate across the airspace.
A stable track forms from incomplete inputs.
Classification and confidence become available.
Multiple sources combine into one track.
Actionable information reaches an operator.
AWARENESS WHERE THE AIRSPACE MATTERS MOST.
ONE ENGINEERING FOUNDATION.
MULTIPLE MISSION CONFIGURATIONS.
BUILT AS A SYSTEM.
ENGINEERED AT EVERY LAYER.
MOTORS, INVERTERS AND POWER ELECTRONICS TUNED AS ONE SYSTEM.
INTELLIGENCE IN MOTION.
BUILT FOR EXTREME ENVIRONMENTS.
WHERE PHYSICAL SYSTEMS MEET EDGE INTELLIGENCE.
Cameras, IMUs, encoders and environmental sensors stream in.
On-device processing runs where the data is generated.
Scene, object and state understanding are built in real time.
Operational logic proposes and prioritises next actions.
Closed-loop control converts intent into motion commands.
Actuators, motors and platforms deliver the response.
BUILT FOR CRITICAL ENVIRONMENTS.
Perimeter awareness and asset protection.
Uncrewed aircraft awareness around movement areas.
Continuous monitoring of high-value sites.
Multi-domain sensing for port operations.
Support to policing and emergency response.
Motion systems for space-adjacent programs.
Perception and control for ground platforms.
Precision motion and inspection.
DESIGNED FOR COLD, WIND AND DISTANCE.
FROM REQUIREMENT TO VALIDATED SYSTEM.
- 01Understand
Requirements, constraints and mission context are captured.
- 02Architect
A system architecture is proposed and reviewed.
- 03Design
Mechanical, electrical and software design proceeds in parallel.
- 04Simulate
Behaviour is modelled before hardware is committed.
- 05Prototype
Working prototypes expose real-world edge cases early.
- 06Integrate
Sub-systems are combined and interfaces are hardened.
- 07Test
Structured testing validates performance and margins.
- 08Validate
Acceptance evidence is produced against the requirement set.
- 09Support
The system is sustained across its operational life.
MARKHAM AND OTTAWA. BUILT CLOSE TO THE MISSION.
SOVEREIGN CAPABILITY STARTS CLOSE TO HOME.
Development notes and perspectives.
Sense. Process. Control. Act.
A practical systems architecture for connecting sensors, edge computing, motion control and physical action.
Counter-UAS development note: fusion architecture
How a developing multi-sensor architecture can organize radar, optical, thermal and RF observations into clearer situational awareness.
Thermal behaviour in high-torque BLDC designs
Why winding losses, magnetic losses, duty cycle and heat paths must be considered together in BLDC motor and inverter design.